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The module provides background in the fundamental principles of Mathematics and Mechanical Principles (Solid Mechanics) covering topics such as stress and strain, shear forces, torsion and how power is transferred via shafts as in jet engines; it also covers topics in Electronic Principles relevant to all engineering disciplines.

This module builds on knowledge gained in Engineering Tools and Principles 1. It provides further understanding in Mathematics and Mechanical Principles (Dynamics) covering topics such as Newton’s laws, linear and angular motion, friction, inertia etc. It also covers Electronic Principles including analysis of RLC circuits and operational amplifiers.

This hands-on module immerses you in the engineering design process through a group project to create a functional prototype. You’ll master the complete design lifecycle, from technical drawing and problem-solving to key professional skills like project management. You'll gain proficiency in essential digital tools, including Computer-Aided Design (CAD) and programming, alongside the fundamentals of machines and mechanisms.

All learning is framed within the global automotive industry, covering business practices, regulations, and sustainability. This module directly bridges theory with practice, preparing you to solve real-world engineering challenges.

This module is focused on the build-and-test cycle. Your group will design, manufacture, and test a working prototype, moving from the ideal CAD world to a physical product. You'll select manufacturing processes, run quality control, and then test your build to see if it actually works. To do this, you'll learn to create assemblies in CAD, get a first look at FEA, and write code to handle real data. The theory covers essential machine components and the fundamental physics of vehicle dynamics, forces, power, and motion.

This module introduces you to the principles of chassis design in the context of mechanical and automotive engineering. The module covers key areas such as structural integrity, suspension geometry, and load distribution. An emphasis is placed on materials selection, lightweight design strategies, and crashworthiness. You will learn how to design and evaluate chassis systems that meet performance, safety, and durability requirements. This module will go through applied theory and design tasks and you will develop essential engineering competencies.

This module introduces you to advanced propulsion systems in the context of modern automotive engineering. It covers the fundamentals of internal combustion engines, including thermodynamic principles, fuel injection systems, and turbocharging. You will also explore hybrid and electric powertrains, energy recovery technologies, emissions control, and alternative fuels.

An emphasis is placed on improving energy efficiency and reducing environmental impact. Through analytical work and design-based tasks, you will gain the technical skills needed to evaluate and propose sustainable propulsion solutions, in line with UK-SPEC learning outcomes for professional engineering development.

Projects need to deliver a design solution (e.g., a product), which require planning and initiation, and need to be budgeted, costed, and scheduled and completed within these projections. Projects require management of stakeholder expectations, and they need to be undertaken at an agreed level of quality within an accepted level of risk. This module presents some of the background, theory, and practice to enable learners to embed professional project management expertise in their professional and academic development.

The design part of the module will teach advanced computer aided design skills and advanced Finite Element Analysis skills which can be used to analysis mechanical components and how and why they could fail under varying load and multidimensional stress conditions.

This module introduces you to the fundamental principles involved in the design, analysis, and manufacturing of automotive body structures. It provides insight into structural performance, aerodynamics, and crashworthiness in vehicle body systems. You will explore key concepts such as lightweight construction, material selection, and joining techniques including welding, adhesives, and composite bonding. The module emphasises structural integrity, safety, and sustainable practices in automotive body engineering, preparing you for design challenges in the modern automotive industry.

This module is about managing airflow and heat to make vehicles more efficient and powerful. You'll start with aerodynamics, analysing the causes of drag and learning practical strategies for airflow optimisation, from body streamlining to active aero. We'll cover both physical wind tunnel testing and the basics of CFD.  Then, we’ll move to thermal management, covering cooling systems, heat exchangers, and the specific challenges of keeping EV batteries and motors at optimal temperatures. You’ll learn how these two fields are critical for modern vehicle design.

This module is all about the physics of vehicle handling, ride, and stability. You'll analyse the fundamentals of motion like understeer and oversteer, and break down the design of suspension systems and the effect of geometry tuning.  We'll do a deep dive into tire dynamics, looking at how grip is generated and the models used to predict it. You'll also use simplified vehicle models to analyse ride quality and learn the working principles behind electronic stability control systems like ABS and ESP.

This module is your capstone individual project. You'll take ownership of a complex engineering problem, from initial concept to final validation. With guidance from an academic supervisor, you'll define your research question, conduct a literature review, and engineer a solution—which could be a physical prototype, a piece of software, or a detailed analysis. The project demands a rigorous approach to design, testing, and data evaluation. You'll be assessed on a final report, a presentation where you defend your findings, and a demonstration of what you've built or created.

The module enables you to understand and reflect upon sustainability and the role of business in a rapidly changing, globalised world. It identifies opportunities and threats for industry arising from environmental policy, legislation, and societal change, and explores how businesses respond to future environmental challenges: for example, through supply chain management, logistics, life-cycle analysis, green accounting, and carbon trading.

This module tackles the systems-level challenges of modern vehicles: the human, the environment, and the machine. We'll analyse human-vehicle interaction, from physical ergonomics to the UX of driver-assist systems (ADAS). You'll investigate crash causation and the principles of sustainable design, including Life Cycle Assessment (LCA) and the use of lightweight materials. A key part of the course deals with the ethics of autonomous vehicles, analysing decision-making dilemmas and the governance needed for AI.

This module gets you hands-on with the core simulation tools of the auto industry. You'll use Finite Element Analysis (FEA) for structural and crashworthiness simulations, Computational Fluid Dynamics (CFD) to analyse aerodynamics and cooling, and Multi-Body Dynamics (MBD) for suspension and NVH analysis. The focus is on applying these methods to solve practical design problems. You'll also learn how to build integrated simulation workflows and the critical process of validating your computer models against real-world data to ensure they are accurate and reliable.

The module provides an opportunity for you to work on an engineering project as a multidisciplinary team, which will be similar to that found in industry. A project contains many facets of engineering, science, management and business, and often the you are not exposed to these multidisciplinary aspects until they move into industry. This module has been specifically designed to expose you to the multidisciplinary and team nature of many engineering projects, helping to highlight individual strengths and weaknesses.

It will also help to prepare you for being responsible for quality of their output, in particular conforming to required protocols, and managing technical uncertainty. The selected engineering project will give an opportunity for you to learn and practise engineering design as well as key skills. The engineering design and practise will include design using appropriate technical information and engineering knowledge, problem solving, application and development of mathematical and computer models, the understanding and selection of components and materials, the necessary workshop and laboratories techniques. The key skill aspect will include understanding and practising project management, leadership, and risk management applied to a technical project that could involve communication of ideas within a team and wider (potentially international) audience, as well as the social and environmental aspects.